Concentrating magnetic energy in a desired volume is an important requirement for many technologies. Here, we experimentally realize a superconductor-ferromagnetic metamaterial that allows to concentrate the magnetostatic energy in its interior and in other situations to amplify the energy in its exterior. We show that surrounding two distant current loops with two such metamaterials enhance the magnetostatic coupling between them. We also demonstrate that a ferromagnetic-only metamaterial, without superconducting parts, achieves these properties with only a slight decrease in performance. Results may be applied to increase the sensitivity of magnetic sensors or for enhancing wireless power transmission, where efficiency depends critically ...
The adoption of wireless power transfer (WPT) is affected by limitation in power transfer distance, ...
The wireless power transfer (WPT) has attracted considerable attention due to its convenience and re...
This thesis presents a novel approach to the experimental realization of tunable, superconducting me...
A novel and broadly applicable way to increase magnetic coupling between distant circuits in the qua...
The ability to wirelessly power electrical devices is becoming of greater urgency as a component of ...
In this letter, a potential way to transfer power wirelessly based on magnetic metamaterials (MMs) a...
<p>The advent of resonant metamaterials with strongly dispersive behavior allowed scientists to desi...
Abstract As a unique group of advanced artificial materials, metamaterials have found many interesti...
Magnetism is present in our daily life – it is found at the basis of technologies such as electric g...
Magnetic sensors are key elements in our interconnected smart society. Their sensitivity becomes ess...
Metamaterials are artificial structures that exhibit unusual properties not seen in natural material...
Wireless power transfer (WPT) has lately seen significant innovation and development; consequently, ...
Abstract—A passive DC magnetic concentrator is designed with transformation optics (TO) and realized...
We investigate numerically the use of a negative-permeability perfect lens for enhancing wireless po...
In this work, we demonstrate theoretically and experimentally the possibility of tuning the electrom...
The adoption of wireless power transfer (WPT) is affected by limitation in power transfer distance, ...
The wireless power transfer (WPT) has attracted considerable attention due to its convenience and re...
This thesis presents a novel approach to the experimental realization of tunable, superconducting me...
A novel and broadly applicable way to increase magnetic coupling between distant circuits in the qua...
The ability to wirelessly power electrical devices is becoming of greater urgency as a component of ...
In this letter, a potential way to transfer power wirelessly based on magnetic metamaterials (MMs) a...
<p>The advent of resonant metamaterials with strongly dispersive behavior allowed scientists to desi...
Abstract As a unique group of advanced artificial materials, metamaterials have found many interesti...
Magnetism is present in our daily life – it is found at the basis of technologies such as electric g...
Magnetic sensors are key elements in our interconnected smart society. Their sensitivity becomes ess...
Metamaterials are artificial structures that exhibit unusual properties not seen in natural material...
Wireless power transfer (WPT) has lately seen significant innovation and development; consequently, ...
Abstract—A passive DC magnetic concentrator is designed with transformation optics (TO) and realized...
We investigate numerically the use of a negative-permeability perfect lens for enhancing wireless po...
In this work, we demonstrate theoretically and experimentally the possibility of tuning the electrom...
The adoption of wireless power transfer (WPT) is affected by limitation in power transfer distance, ...
The wireless power transfer (WPT) has attracted considerable attention due to its convenience and re...
This thesis presents a novel approach to the experimental realization of tunable, superconducting me...